Obstacle avoidance and navigation in the real world by a seeing robot rover
By Hans P. Moravec. 1980
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
- Sergey Levine
- Luc Van Gool
- Andrew Zisserman
- Yoshua Bengio
- Jitendra Malik
- Kristen Grauman
- Yi Yang
- Abhinav Kumar Gupta
Citations in the corpus
- The AdobeIndoorNav Dataset: Towards Deep Reinforcement Learning based Real-world Indoor Robot Visual Navigation (2018, background): “Robot visual navigation has a long history [15], [16], [17], [18], [19].”
- Perceptual Image Hashing Via Feature Points: Performance Evaluation and Tradeoffs (2006, methodology): “The construction of the detector is based on a corner detection created by Moravec [20].”
- Clustering of Gaze During Dynamic Scene Viewing is Predicted by Motion (2011, methodology): “The Harris corner detector modifies the Moravec interest operator [ 85 ] by using a first order derivative approximation to the second derivative.”
- Monocular Omnidirectional Visual Odometry for Outdoor Ground Vehicles (2008, background): “Most of the work in estimating robot motion has been produced using stereo cameras and can be traced back to Moravec’s work [1].”
- Faster and Better: A Machine Learning Approach to Corner Detection (2008, background): “Since real images are used, there is no good definition of ground truth, so a number of human test subjects (e.g. 10) familiar with corner detection in general, but notthe methods under test, label corners in the test images.”
- Visual Odometry : Part II: Matching, Robustness, Optimization, and Applications (2012, background): “Early research in VO is opted for the former approach [2]–[5] while the works in the last decade concentrated on the latter approach [1], [6]–[9].”
- Visual teach and repeat for long‐range rover autonomy (2010, methodology): “Throughout this work, we use a generic localization module based on the stereo VO algorithm pioneered by Moravec (1980) and refined by Matthies (1989) and others .”
- Visual odometry for ground vehicle applications (2006, background): “Work on estimating robot motion with stereo cameras goes back at least to Moravec's work at Stanford in the 1970s (Moravec 1980).”
- Toward Reliable Off Road Autonomous Vehicles Operating in Challenging Environments (2006, background): “One of the earliest autonomous mobile robots was the Stanford Cart which, in 1978, spent more time thinking than moving (Moravec 1980) in a very structured environment.”
- Machine Learning for High-Speed Corner Detection (2006, background): “Moravec [4] computes the sum-of-squared-differences (SSD) between a patch around a candidate corner and patches shifted a small distance in a number of directions.”
- Geometrically invariant watermarking using feature points (2002, methodology): “The construction of the detector is based on a corner detection function created by Moravec [32].”
- Evaluation of Interest Point Detectors and Feature Descriptors for Visual Tracking (2011, methodology): “Corner Detectors Corners are among the first low-level features used for image analysis and in particular, tracking (Moravec 1980).”
- An Overview to Visual Odometry and Visual SLAM: Applications to Mobile Robotics (2015, background): “The problem of estimating a robot’s ego-motion by observing a sequence of images started in the 1980s by Moravec [82] at Stanford University.”
- Good features to track (1994, background): “Feature windows can be selected based on some measure of texturedness or cornerness, such as a high standard deviation in the spatial intensity pro le [13], the presence of zero crossings of the Laplacian of the image intensity [12], and corners [9], [5].”
- Two years of Visual Odometry on the Mars Exploration Rovers (2007, background): “Work on estimating robot motion with stereo cameras can be traced back to Moravec’s work (Moravec, 1980).”
- Behavioral dynamics of steering, obstacle avoidance, and route selection. (2003, unknown): “A common approach to path planning is model-based control, which is characterized in robotics by a “ sense-model-plan-act” scheme (Brooks, 1991; Moravec, 1981 ).”